tgm2依赖性线粒体机械传感介导的巨噬细胞对纤维蛋白结构的反应

IF 18 1区 医学 Q1 ENGINEERING, BIOMEDICAL
Bicong Gao , Haifeng Ni , Junhong Lai , Ning Gao , Xinxin Luo , Ying Wang , Yani Chen , Jiaying Zhao , Zhou Yu , Jing Zhang , Wenjin Cai , Guoli Yang
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引用次数: 0

摘要

在植入部位受伤后,血液-物质相互作用形成纤维蛋白结构,作为异物反应(FBR)的初始激活剂。然而,关于纤维蛋白结构如何调节巨噬细胞减轻FBR行为的知识有限。据报道,微环境的机械提示可以塑造免疫细胞的功能。在这里,我们通过构建异质纤维蛋白网络在细胞器水平上研究巨噬细胞的机械生物学。基于体内实验结果,我们证明了粘附介导的线粒体功能分化调节了巨噬细胞的极化。整合素信号的有限激活以反式方式上调了转谷氨酰胺酶2 (Tgm2),增强了pgc1 α介导的线粒体生物发生。我们的研究强调了以前被忽视的宿主蛋白吸附在材料表面的空间结构,倡导材料设计策略的范式转变,从仅仅关注物理性质到考虑宿主蛋白的修饰。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Macrophage response to fibrin structure mediated by Tgm2-dependent mitochondrial mechanosensing

Macrophage response to fibrin structure mediated by Tgm2-dependent mitochondrial mechanosensing
Following an injury at the implantation position, blood-material interactions form a fibrin architecture, which serves as the initial activator of foreign body response (FBR). However, there is limited knowledge regarding how the topography of fibrin architectures regulates macrophage behavior in mitigating FBR. Mechanical cues of the microenvironment have been reported to shape immune cell functions. Here, we investigated macrophage mechanobiology at the organelle level by constructing heterogeneous fibrin networks. Based on findings in vivo, we demonstrated that adhesion-mediated differentiation of mitochondrial function modulated macrophage polarization. The finite activation of integrin signaling upregulated transglutaminase 2 (Tgm2) in a trans-manner, augments PGC1α-mediated mitochondrial biogenesis. Our study highlighted the previously overlooked spatial structures of host proteins adsorbed on material surfaces, advocating for a paradigm shift in material design strategies, from focusing solely on physical properties to considering the modification of host proteins.
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来源期刊
Bioactive Materials
Bioactive Materials Biochemistry, Genetics and Molecular Biology-Biotechnology
CiteScore
28.00
自引率
6.30%
发文量
436
审稿时长
20 days
期刊介绍: Bioactive Materials is a peer-reviewed research publication that focuses on advancements in bioactive materials. The journal accepts research papers, reviews, and rapid communications in the field of next-generation biomaterials that interact with cells, tissues, and organs in various living organisms. The primary goal of Bioactive Materials is to promote the science and engineering of biomaterials that exhibit adaptiveness to the biological environment. These materials are specifically designed to stimulate or direct appropriate cell and tissue responses or regulate interactions with microorganisms. The journal covers a wide range of bioactive materials, including those that are engineered or designed in terms of their physical form (e.g. particulate, fiber), topology (e.g. porosity, surface roughness), or dimensions (ranging from macro to nano-scales). Contributions are sought from the following categories of bioactive materials: Bioactive metals and alloys Bioactive inorganics: ceramics, glasses, and carbon-based materials Bioactive polymers and gels Bioactive materials derived from natural sources Bioactive composites These materials find applications in human and veterinary medicine, such as implants, tissue engineering scaffolds, cell/drug/gene carriers, as well as imaging and sensing devices.
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